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. 2022 May 12;106(9-10):3465–3488. doi: 10.1007/s00253-022-11945-8

Table 3.

Genomics and transcriptomic tool with their uses in SM study of white rot fungi

Tool and techniques Mechanism Application References
Genomic techniques
  DNA microarray Hybridization based genomic technology identified gene from gene clusters Prediction of specific protein and metabolite sequences by comparing with another genome Özdemir et al. (2017)
  Genome mining Locate the genes into the genome Search the location of genes that helps in metabolite formation Narayanan et al. (2010)
Screening of unknown genes from whole-genome sequence To know the biosynthetic potential of fungal SM BGC Palazzotto and Weber (2018)
  Global Natural Product Social Molecular Networking (GNPS) Added with MS/MS spectrum coupled with GC/LC to know the natural products Perform MS searches using MS/MS spectrum as a query search, help in the quantification of metabolites or other drug components into the sample Mao et al. (2021)
  CRISPR/Cas9 Based on genome editing technology Highly efficient genetic manipulation technique with enabled the taking advantage and discovery of new bioactive compounds Hadjithomas et al. (2017)
Transcriptomic approach
  cDNA-AFLP Sequence needed for cluster and alignment Discover novel genes for metabolite production Garber et al. (2011)
  Shotgun sequencing RNA identification by forming cDNA fragments Detect, quantify, and annotate the coding/non-coding RNA Fondi and Liò (2015)
  Probe-based arrays mRNA analysis with labeled sample and connect with cap analysis of gene expression tool (CAGE) Explore gene expression at global level, screening of SM BGC cluster using Southern blots Hasin et al. (2017)
  Deep-sequencing technologies RNA-sequencing for SM gene prediction in fungi Determine RNA expression level, capture transcriptome dynamics Ozsolak and Milos (2011)
  Next-generation sequence (NGS) RNA sequence identification by alter the DNA sequencing Biomarker, therapeutic targets, SM gene cluster verification Liu et al. (2021); Hasin et al. (2017)